EP3157471B1 - Exoskeleton and method of using the same - Google Patents
Exoskeleton and method of using the same Download PDFInfo
- Publication number
- EP3157471B1 EP3157471B1 EP15809414.4A EP15809414A EP3157471B1 EP 3157471 B1 EP3157471 B1 EP 3157471B1 EP 15809414 A EP15809414 A EP 15809414A EP 3157471 B1 EP3157471 B1 EP 3157471B1
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- EP
- European Patent Office
- Prior art keywords
- leg
- user
- section
- exoskeleton
- hip
- Prior art date
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- 210000002414 leg Anatomy 0.000 claims description 120
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- 210000000689 upper leg Anatomy 0.000 claims description 31
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Images
Classifications
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B25—HAND TOOLS; PORTABLE POWER-DRIVEN TOOLS; MANIPULATORS
- B25J—MANIPULATORS; CHAMBERS PROVIDED WITH MANIPULATION DEVICES
- B25J9/00—Programme-controlled manipulators
- B25J9/0006—Exoskeletons, i.e. resembling a human figure
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61F—FILTERS IMPLANTABLE INTO BLOOD VESSELS; PROSTHESES; DEVICES PROVIDING PATENCY TO, OR PREVENTING COLLAPSING OF, TUBULAR STRUCTURES OF THE BODY, e.g. STENTS; ORTHOPAEDIC, NURSING OR CONTRACEPTIVE DEVICES; FOMENTATION; TREATMENT OR PROTECTION OF EYES OR EARS; BANDAGES, DRESSINGS OR ABSORBENT PADS; FIRST-AID KITS
- A61F5/00—Orthopaedic methods or devices for non-surgical treatment of bones or joints; Nursing devices; Anti-rape devices
- A61F5/01—Orthopaedic devices, e.g. splints, casts or braces
- A61F5/0102—Orthopaedic devices, e.g. splints, casts or braces specially adapted for correcting deformities of the limbs or for supporting them; Ortheses, e.g. with articulations
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61F—FILTERS IMPLANTABLE INTO BLOOD VESSELS; PROSTHESES; DEVICES PROVIDING PATENCY TO, OR PREVENTING COLLAPSING OF, TUBULAR STRUCTURES OF THE BODY, e.g. STENTS; ORTHOPAEDIC, NURSING OR CONTRACEPTIVE DEVICES; FOMENTATION; TREATMENT OR PROTECTION OF EYES OR EARS; BANDAGES, DRESSINGS OR ABSORBENT PADS; FIRST-AID KITS
- A61F5/00—Orthopaedic methods or devices for non-surgical treatment of bones or joints; Nursing devices; Anti-rape devices
- A61F5/01—Orthopaedic devices, e.g. splints, casts or braces
- A61F5/02—Orthopaedic corsets
- A61F5/028—Braces for providing support to the lower back, e.g. lumbo sacral supports
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61F—FILTERS IMPLANTABLE INTO BLOOD VESSELS; PROSTHESES; DEVICES PROVIDING PATENCY TO, OR PREVENTING COLLAPSING OF, TUBULAR STRUCTURES OF THE BODY, e.g. STENTS; ORTHOPAEDIC, NURSING OR CONTRACEPTIVE DEVICES; FOMENTATION; TREATMENT OR PROTECTION OF EYES OR EARS; BANDAGES, DRESSINGS OR ABSORBENT PADS; FIRST-AID KITS
- A61F5/00—Orthopaedic methods or devices for non-surgical treatment of bones or joints; Nursing devices; Anti-rape devices
- A61F5/01—Orthopaedic devices, e.g. splints, casts or braces
- A61F5/0102—Orthopaedic devices, e.g. splints, casts or braces specially adapted for correcting deformities of the limbs or for supporting them; Ortheses, e.g. with articulations
- A61F2005/0132—Additional features of the articulation
- A61F2005/0155—Additional features of the articulation with actuating means
Definitions
- CA 2 724 062 A1 upon which the preamble of appended claim 1 is based, discloses an exoskeleton each leg assembly of which comprises outer and inner side supports connected by interface straps which transfer a small part of the load carried by the user from the outer side support to the inner side support before contacting the ground.
- a user will wear the exoskeleton to assist it in carrying loads.
- the torso e.g. shoulder, chest and/or back
- the load will at least be partially supported by the torso section (e.g. shoulder member, spine assembly) and will be transferred down to the hip section via the spine assembly and its connection with the hip section.
- the hip section will then further transfer the load down to the two leg sections via the connection between the left hip member and the left leg section, and via the connection between the right hip member and the right leg section.
- the load will be transferred to the ground via the left and right sole inserts located in the footwear of the user. In that sense, as mentioned above, the final left and right load-bearing contact points are located on the inner the side of the left and right feet.
- Tibia-Knee extension mechanism this is the lower area of the knee as a continuation of the tibia
- this junction mechanism allows proper movement of the hip/thigh area while ensuring proper load transfer.
- Vertebrae-Ribs This is a special vertebrae, unlike the others (o), which extends/grow two floating ribs that will embrace the torso from back to front.
- Rib-plate Connector This part located at the extremity of the floating rib helps avoid compression of the torso by slightly pushing the tight ballistic vest away.
- Rib Adjustment Track This is the mechanism that allows proper adjustment and fixation of this entire sub-system of the exoskeleton on the torso.
- Sub-System 4 upper shoulder
- Upper-Ear Pivot Branch This is the highest part of the upper shoulder sub-system which is connected to the helmet. This sub-system utilizes an Assisted Torque System (ATS) to literally assist and control the motion of the neck while transferring a portion of the weight of the helmet to the sub-system below via the Lifter Wings (n).
- ATS Assisted Torque System
- the shoulder member 110 is generally configured to partially surround the base of the neck of the user.
- the shoulder member 110 comprises two wing-shaped extensions 112L and 112R which define a recess 113 where the base of the neck of the user can be located.
- the shoulder member 110 and the spinal members 131 to 136 are interconnected with resilient members (e.g. springs) 150 to 155 in order for the spine assembly 120 to compress and extend under the different load it supports and transfers.
- the resilient interconnection between the shoulder member 110 and the spinal members 131 to 136 also gives flexibility to the torso section 100 of the exoskeleton 10. Since the exoskeleton 10 is configured to be worn by a user, it may be advantageous that the exoskeleton 10 be able to follow the movements of the user while maintaining its load-bearing capabilities.
- the resilient interconnection between the shoulder member 110 and the spinal members 131 to 136 allows the torso section 100 to support at least part of the load applied to the torso of the user while remaining flexible enough to follow most of the movements of the user.
- At least one of the spinal members 131 to 136 further comprises at least one pair of left and right rib members 140L and 140R which extend on each side of at least one intermediate spinal member all the way to the front of the torso of the user, generally at the level of the lowest ribs, between the thorax and abdomen.
- only spinal member 133 comprises rib members 140L and 140R.
- Rib members 140L and 140R are configured to at least partially support a load which would be localized on the thorax and/or abdomen of the user and to transfer it to the spine assembly 120.
- spinal members could be provided with rib members (if the user has to carry large front load, e.g. a camera operator) or be devoid of rib members altogether (if the user doesn't have to carry large front load, e.g. a hiker).
- the torso section 100 will at least partially support a load carried by the torso of the user and transfer it down to the hip section 200 which will further transfer it to the ground via the leg sections 300L and 300R.
- the hip section 200 is a bridging section between the upper torso section 100 and the lower leg sections 300L and 300R.
- the hip section 200 is generally configured to transfer and redirect the load from the back, where it receives the load from the spine assembly 120, to the sides where it transfers the load to the leg sections 300L and 300R.
- the lower back member 210 is connected to the lowest extremity 124 of the spine assembly 120 of the torso section 100.
- the connection between the lowest spinal member 136 and the lower back member 210 is similar to the connection between the other spinal members 131 to 136.
- the hip section 200 forms a belt which fully circumscribes the hip region of the user.
- the inner surface of the lower back member 210 and of the hip members 220L and 220R is lined with a layer of resilient material such as elastomeric foam 230.
- the hip section 200 in addition to its role in transferring the load from the torso section 100 to the leg sections 300L and 300R, the hip section 200 also transfers part of the load to the hips of the user, thereby further contributing to alleviating the load carried by the torso of the user.
- the layer of resilient material therefore generally prevents the hip section 200 to define painful contact points with the hips of the user.
- leg sections 300L and 300R are symmetric in nature, the right leg section 300R being a mirror image of the left leg section 300L. In that sense, only the left leg section 300L will be described below.
- the left leg section 300L is fixedly yet adjustably connected to the left hip member 220L of the hip section 200.
- the left leg section 300L generally comprises three main portions, 1) a hip connector assembly 310L, 2) an upper leg member 330L, and 3) a lower leg member 350L.
- the pivotal connection 313L between the belt connector 312L and first hip joint member 314L defines a first pivot axis 323L which allows for lateral movements (i.e. left-right movements) of the leg of the user.
- the pivotal connection 315L between the first hip joint member 314L and second hip joint member 316L defines a second pivot axis 325L which allows for longitudinal movements (i.e. front-rear movements) of the leg of the user.
- the pivotal connection 317L between the third hip joint member 318L and the second hip joint member 316L defines a third pivot axis 327L which for axial movements (i.e. rotational movements) of the leg of the user.
- the three pivot axes 323L, 325L and 327L are generally perpendicular to each other, thereby generally providing three degrees of freedom to the rest of the leg section 300L and thus to the leg of the user.
- the hip connector assembly 310L allows the upper and lower leg members 330L and 350L to properly follow the movements of the leg of the user during use.
- the upper leg member 330L generally comprises two regions, an upper region 334L and a lower region 336L. As best shown in Fig. 11 , the upper region 334L generally extends from the side (e.g. the thigh region) of the user toward the front. Then, extending downwardly from the upper region 334L is the lower region 336L which is terminated near the knee by two extremities 338L as the lower region 336L splits.
- the lower leg member 350L is pivotally connected, at its upper extremities 352L, to the upper leg member 330L, and is terminated at its lower extremity 358L by a sole insert 370L.
- the upper region 354L of the lower leg member 350L is generally located at the front of the leg of the user while the lower region 356L extends downwardly and toward the inside of the leg of the user such as to terminate inside the foot of the user.
- the lower region 356L is terminated by a sole insert 370L configured to fit inside the footwear under foot of the user.
- This sole insert 370L is pivotally connected to the extremity 358L of the lower leg member 350L to allow pivotal movements of the foot of the user.
- the leg section 330L transfers the load from the outer side of the leg of the user, near the thigh, all the way down to the inner side of the leg of the user, near the ankle.
- This load transfer from the outer side of the leg toward the inner side of the leg allows the final load-bearing point to be located inside the foot of the user in accordance with the biomechanics of the human body. In that sense, since the inner side of the foot is better configured to support load, transferring the load on the inner side of the foot can prevent injuries to the user of the exoskeleton 10.
- the leg when a user is standing straight, walking or running, the leg remains in its normal circumference and geometry.
- the circumference of the leg typically increases within a range varying between none to several inches, depending on the age and ethnic background of the individual. This situation applies specifically to the thigh and the calves region of the legs.
- section A (dark grey: thigh extender which is connected to the knee pivot joint, which is in turn connected to the tibia extender) generally moves horizontally towards the inner side of the leg by the expansion of the muscles when the user adopts a lower position as described above while Section B (light grey: knee/thigh/tibia mechanism) generally remains fixed and does not move.
- elements 334, 336 and 354 preferably remain fixed and do not move, as opposed to symmetrical counterpart elements of the inner side which typically shifts horizontally towards the inner side of the leg by the expansion of the muscles when the user adopts a lower position as described above.
- the rear surface of the leg sections 380L and 390L could be provided with a layer of resilient material such as elastomeric foam for added comfort.
- the present embodiment of the exoskeleton 10 also comprises a neck section 400 which is generally configured to transfer the load generated by a helmet (not shown) down to the torso section 100.
- the neck section 400 is connected to the torso section 100 via a vest 500.
- the vest 500 is generally integrated with the torso section 100 such as to allow the vest 500 to secure the torso section 100 to the torso of the user.
- the vest 500 is made from padded straps 510 and mesh 520.
- the neck section 400 comprises a pair of left and right helmet support members 410L and 410R which are configured to be mounted to the helmet via attachment points 412L and 412R, and which are pivotally connected to first neck members 420L and 420R.
- These two first neck members 420L and 420R are further connected to second neck member 430 which is shaped to extend along the rear of the head of the user.
- This second neck member 430 is further connected to a third neck member 440 which extends downwardly toward the shoulders of the user.
- the lower extremities 442L and 442R of the third neck member 440 are provided with vest attachment members 450L and 450R pivotally attached thereto.
- trajectory of the static and dynamic loads along the exoskeleton 10 is as follows.
- this exoskeleton system 10 in operation, when the person is standing, walking, or running this exoskeleton system 10 takes the load which is typically on the torso, lifts it away from the body and redirects it to the floor underneath the foot (i.e. the load is now redirected strategically to the area where the bipedal body manages better the load).
- the functioning of the vertebrae 131 to 136 of the vertebrae assembly is preferably a self-adjustable dynamic load transfer mechanism designed specifically for the human spine.
- the vertebrae assembly 600 is composed of several individual device-parts identified as vertebrae which are characterized in 4 types: Lumbar Vertebrae (134 to 136), Rib Shock Vertebra 133 (which extends into the Rib Shock assembly connection (140 to 144)), Thoracic Vertebrae 131-132 and Upper Vertebra 110 (which extends into the Load-lifter wings 112).
- the vertebrae assembly 600 comprises telescopic internal springs 610, inter-vertebrae springs 620, and spherical contact load transfer 630.
- Each one of these vertebrae (110, 131 to 136) preferably moves freely in relation to others on 4 axis: rotation, flexion, lateral flexion and translation.
- the upper vertebra (110) is typically the device-part that has the capacity to handle the load. The functioning of this vertebrae assembly with regards to the global system sustaining a certain charge depends on the specific posture/activities/positions as well as transfer mechanisms described below:
- the load While walking and running, the load will still be transmitted through this direct contact. Also if a limited leaning motion is performed (less than 10 degrees) on any side, the vertebrae assembly will still transfer the load (or translate) through direct contact.
- the spine when the spine extends, it generally creates a translation between each vertebra points of contact 111, 112 which disconnects the spherical surface contact that is supporting the load in straight position.
- the assembly uses the inner tube contact inside the vertebrae 115. It's the two contacts created by the scaffold points of contact 111, 112 and 116, 117 that now transfers the load. This mechanism is identified as the scaffold.
- a larger angle of flexibility is obtained between the vertebrae 131 to 136 (see Fig. 8 ); so the more there is a leaning motion, the more the translation between vertebrae 131 to 136 (see Fig. 8 ) increases, and the more flexible they become.
- the lumbar vertebrae translate so much that a telescopic mechanism 113, 114 has been incorporated inside them to compensate excessive translation that occurs in a 'kneeling' position.
- the device-parts of the vertebrae assembly need to hold together adequately on the user. Therefore, springs, elastics, and textile retainers are inherently integrated to the design of this vertebrae assembly.
- a spring is inserted inside each vertebra 131 to 136 (see Fig. 8 ); this spring pushes the other vertebrae 131 to 136 (see Fig. 8 ) apart (see Fig. 22 ).
- a specific spring is inserted into the lumbar section to activate the telescopic mechanism of the Lumbar vertebrae (see Fig. 22 ). The global assembly is then tightened by an elastic that pulls the whole vertebrae assembly together (see Figs. 24-25 ).
- This mechanism is preferably self-adjustable in a way that moving with the load on the shoulder is rendered effortless.
- the load carried by the user on its chest, shoulders and/or back is at least partially supported by the shoulder member 110 and spine assembly 120 of the torso section 100.
- the load is thus directed toward the back and along the spine assembly 120 which further directs it down to the hip section 200.
- the hip section 200 splits the load in two as it redirects it to the left and right hip members 220L and 220R.
- the left and right hip members 220L and 220R further redirect the load down the left and right leg sections 300L and 300R respectively.
- the leg sections 300L and 300R then redirect the load from the outside of the legs toward the inside of the legs such as to finally contact the ground near the inside of the feet of the user.
- this exoskeleton 10 takes at least part of the load which is on the torso of the user, lifts it away from the body and redirects it toward the ground underneath the feet of the user.
- the exoskeleton 10 is generally made of titanium or other lightweight alloy. Still, the exoskeleton 10 could have some of its components made of composite material, such as carbon fiber or aramid and/or a combination of both, the articulations and the vertebrae remaining however in titanium. In order to reduce the weight further, the titanium could be made of a sparse material (i.e. metallic alloy comprising embedded gas bubbles).
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- Health & Medical Sciences (AREA)
- Engineering & Computer Science (AREA)
- Vascular Medicine (AREA)
- Life Sciences & Earth Sciences (AREA)
- Nursing (AREA)
- Orthopedic Medicine & Surgery (AREA)
- Biomedical Technology (AREA)
- Heart & Thoracic Surgery (AREA)
- Veterinary Medicine (AREA)
- Public Health (AREA)
- Animal Behavior & Ethology (AREA)
- General Health & Medical Sciences (AREA)
- Mechanical Engineering (AREA)
- Robotics (AREA)
- Rehabilitation Tools (AREA)
- Manipulator (AREA)
- Orthopedics, Nursing, And Contraception (AREA)
- Prostheses (AREA)
Description
- The present invention generally relates to exoskeletons and other wearable structures configured to assist humans in carrying loads, and more particularly relates to passive and/or non-powered exoskeletons and other passive and/or non-powered wearable structures configured to assist humans in carrying loads.
- Helping users carrying heavy loads has long been a need in many circumstances. For example, soldiers in the field, firefighters, police officers, antiriot squads, but also construction workers, and hikers, are often faced with the problem of carrying heavy loads, sometimes over long distances. Solutions to such a problem that have been proposed over the years, have sometimes taken the form of a portable structure, also known as an exoskeleton, to be worn by the user, sometimes as a complement to the legs, sometimes through the legs and torso.
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U.S. Patent No. 8,474,672 by Keith teaches an arrangement for replaceably supporting a backpack having a load on the back of the user and transferring the load of the backpack to the ground by way of the legs of the user while allowing the user to take steps unhindered. However, such arrangement does not allow for flexibility of the legs, when the user often needs to be able to squat. - Most of the solutions proposed are powered, i.e. comprise motor driven mechanism for helping the carrying of the load. For example,
U.S. Patent Application No. 2011/0264014 (Angold et al. ) teaches a portable load lifting system. - Other prior art provides extension frames which extend from an exoskeleton trunk and are configured to hold a load in front of a person wearing the exoskeleton, as taught by
U.S. Patent No. 8,057,410 B2 (Angold et al. ). While useful, such a configuration does not provide for easy manipulation of a load by the wearer over a long distance. Additionally, such a device does not address the problem of unequal weight distribution about an exoskeleton trunk, which could cause significant balancing problems for a wearer of the exoskeleton, while the wearer is stationary as well as walking. - Therefore, most of the prior art consists of powered exoskeletons, which, although useful in certain circumstances, may be inadequate, due to the excess weight, costs, dependence on power supply, and lack of ergonomic mobility for the user.
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CA 2 724 062 A1claim 1 is based, discloses an exoskeleton each leg assembly of which comprises outer and inner side supports connected by interface straps which transfer a small part of the load carried by the user from the outer side support to the inner side support before contacting the ground. -
US 2,516,253 discloses an orthopedic brace for use on a patient who has little or no effective control of one of the major joints of the leg. - Furthermore, most of the prior art consists of exoskeletons which have their load bearing design directed on the outside of the leg, which is not compatible with the human biomechanics and which may cause serious injuries to the user. See for instance
U.S. patents Nos. 8,474,672 B1 (Keith ) and8,968,222 B2 (Kazerooni et al. ), or U.S. patent application No.US 2013/0303950 A1 (Angold et al. ). - Therefore, despite ongoing developments in the field of load-carrying exoskeletons, there is a need for novel biomimetic non-powered load-carrying exoskeletons that can mitigate some of the shortcomings of the prior art.
- The shortcomings of prior art exoskeletons are at least mitigated by an exoskeleton, such as a passive exoskeleton, which is configured to be worn by a user such as to support and transfer load normally carried by the user down to the ground, thereby reducing the load support by the user itself.
- The invention is first directed to an exoskeleton as defined in appended
claim 1. - The invention is further directed to a method as defined in appended
claim 15. - In use, a user will wear the exoskeleton to assist it in carrying loads. As a load is applied to the torso of the user, the load will at least be partially supported by the torso section and will be transferred down to the hip section via the torso section and its connection with the hip section. The hip section will then further transfer the load down to the leg section. Finally, the load will be transferred to the ground via the leg section. In that sense, the final left and right load-bearing contact points are located on the inner the side of the left and right feet.
- To allow a load transfer more aligned with human biomechanics, the leg sections of the exoskeleton are generally connected to the sides of the hip section but are configured to transfer the load on the inner side of the feet. Accordingly, the transfer of the load from the outside of the hip down to the inside of the legs advantageously ease the movements of the user wearing the exoskeleton, even when carrying important loads, extending as such the distance and/or time the user will carried the loads.
- Though various users could use an exoskeleton in accordance with the principles of the present invention, such an exoskeleton can be advantageously worn by soldiers, police officers (including antiriot and SWAT team personnel), firefighters, construction workers, camera operators, and hikers to assist them in carrying loads.
- Other and further aspects and advantages of the present invention will be better understood with the illustrative embodiments about to be described, and various advantages not referred to herein will occur to one skilled in the art upon employment of the invention in practice.
- The above and other aspects, features and advantages of the invention will become more readily apparent from the following description, reference being made to the accompanying drawings in which:
-
Figure 1 is a front perspective view of an embodiment of an exoskeleton in accordance with the principles of the present invention. -
Figure 2 is a rear perspective view of the exoskeleton ofFig. 1 . -
Figure 3 is a front view of the exoskeleton ofFig. 1 . -
Figure 4 is a rear view of the exoskeleton ofFig. 1 . -
Figure 5 is a left side view of the exoskeleton ofFig. 1 . -
Figure 6 is a right side view of the exoskeleton ofFig. 1 . -
Figure 7 is a front perspective view of the torso section of the exoskeleton ofFig. 1 . -
Figure 8 is a rear perspective view of the torso section of the exoskeleton ofFig. 1 . -
Figure 9 is a front perspective view of the hip section of the exoskeleton ofFig. 1 . -
Figure 10 is a rear perspective view of the hip section of the exoskeleton ofFig. 1 . -
Figure 11 is a front perspective view of the leg sections of the exoskeleton ofFig. 1 . -
Figure 12 is a rear perspective view of the leg sections of the exoskeleton ofFig. 1 . -
Figure 13 is a partial front perspective view of the lower portion of the leg sections of the exoskeleton ofFig. 1 . -
Figure 14 is a partial rear perspective view of the lower portion of the leg sections of the exoskeleton ofFig. 1 . -
Figure 15 is a front perspective view of the neck section of the exoskeleton ofFig. 1 . -
Figure 16 is a rear perspective view of the neck section of the exoskeleton ofFig. 1 . -
Figure 17 is a front perspective view of the exoskeleton ofFig. 1 , further showing a covering vest. -
Figure 18 is a front view of the leg section of the exoskeleton ofFig. 1 . -
Figure 19 is a front view of the leg sections of the exoskeleton ofFig. 1 . -
Figure 20 is a front perspective view of the leg sections of the exoskeleton ofFig. 1 . -
Figure 21 is a front perspective view of the lower body sections of the exoskeleton ofFig. 1 . -
Figure 22 is a schematic view of the vertebrae section of the exoskeleton ofFig. 1 . -
Figure 23 is a schematic view of the vertebrae section of the exoskeleton ofFig. 1 . -
Figure 24 is a schematic view of the vertebrae section of the exoskeleton ofFig. 1 . -
Figure 25 is a rear view of the torso sections of the exoskeleton ofFig. 1 . - A novel load carriage exoskeleton will be described hereinafter. Although the invention is described in terms of specific illustrative embodiments, it is to be understood that the embodiments described herein are by way of example only and that the scope of the invention is not intended to be limited thereby.
- An exoskeleton in accordance with the principles of the present invention generally comprises at least three interconnected sections, 1) a torso section, 2) a hip section, and 3) leg sections. These three sections are interconnected such as to transfer the load normally carried by the torso, including the shoulders, chest, and back of the user, down to the ground via the hip section and then the leg sections.
- To allow a load transfer which is more aligned with human biomechanics, the leg sections of the exoskeleton are generally connected to the sides of the hip section but are configured to transfer the load on the inner side of the feet.
- In typical embodiments, the torso section of the exoskeleton generally comprises a shoulder member configured to rest on the shoulders of the user, and a spine assembly comprising a plurality of spinal members. The uppermost spinal member is connected to, or integral with, the shoulder member, while the lowermost spinal member is connected to the hip section. The shoulder and spinal members are interconnected by resilient members (e.g. springs) to allow the spine assembly to compress or extend under load and to allow the spine assembly to relatively follow the movements of the user. The torso section generally supports and transfers load normally carried by the shoulders and torso of the user toward the ground via the hip section and then the leg sections.
- In some embodiments, the torso section also comprises at least one pair of left and right rib members which extend on each side of at least one intermediate spinal member all the way to the front of the torso of the user, generally at the level of the lowest ribs, between the thorax and abdomen. When present, these rib members effectively support and transfer load normally carried by the thorax or abdomen toward the spinal assembly and then toward the ground via the hip and leg sections.
- In typical embodiments, the hip section of the exoskeleton generally comprises a lower back member and left and right hip members extending from each side of the lower back member all the way to the front of the user. The lower back member receives the lowest extremity of the spine assembly of the torso section. The free extremities of the left and right hip members are provided with complementary fasteners such as to be attachable together to form a belt. For added comfort, the inner surface of the lower back and hip members are typically lined with resilient material such as elastomeric foam.
- In typical embodiments, the leg sections of the exoskeleton comprise a left leg section and a right leg section. The left and right leg sections are generally symmetrical. The left leg section is mounted to the left hip member of the hip section while the right leg section is mounted to the right hip member of the hip section.
- Each leg section generally comprises three main portions, a hip joint assembly, an upper leg member and a lower leg member. The hip joint assembly is mounted to the appropriate hip member of the hip section and to the upper extremity of upper leg member. The hip joint assembly is articulated to allow the upper leg member to move with respect to the hip section when the user moves (e.g. walking, running, kneeling, squatting, etc.). The upper leg member is connected to the hip joint assembly, and to the lower leg member. The upper extremity of the upper leg member is pivotally mounted to the hip joint assembly, and the lower extremity of the upper leg member is pivotally connected to the lower leg member. The pivotal connection between the upper and lower leg members is generally located at the knee level of the user to allow the lower leg member to follow the movements of the lower leg of the user with respect to the upper leg. The lower leg member generally extends downwardly and toward the inner side of the leg of the user such as to transfer the load from the outside of the leg toward the inside of the leg and down on the inner side of the foot of the user. In that sense, the lower extremity of the lower leg member is terminated with a sole insert configured to be received in the footwear (e.g. boot) of the user.
- In some embodiments, the exoskeleton also comprises a neck section (a fourth section). The neck section is configured to assist in supporting load carried by the head of the user. The neck section is generally connected, directly or via a protective vest or suit, to the torso section such as to transfer the load from the head and neck of the user toward the torso section which will further transfer the load down via the hip and leg sections.
- In use, a user will wear the exoskeleton to assist it in carrying loads. As a load is applied to the torso (e.g. shoulder, chest and/or back) of the user, the load will at least be partially supported by the torso section (e.g. shoulder member, spine assembly) and will be transferred down to the hip section via the spine assembly and its connection with the hip section. The hip section will then further transfer the load down to the two leg sections via the connection between the left hip member and the left leg section, and via the connection between the right hip member and the right leg section. Finally, the load will be transferred to the ground via the left and right sole inserts located in the footwear of the user. In that sense, as mentioned above, the final left and right load-bearing contact points are located on the inner the side of the left and right feet.
- According to one aspect of the present invention, the exoskeleton may comprise a plurality of subsystems:
- Sole: embedded directly inside the sole of the soldier's boot, this metallic sole is the foundation, the siege of the balance and equilibrium necessary for this device to properly transfer and redirect the load from the whole body to the floor.
- Foot extension mechanism: this is the junction between the foot and the lower side of the tibia.
- Outside Medial Malleus connector: this area of the device is specifically designed to ensure proper transfer of the load above without impeding donning/doffing of the boots.
- Inside Medial Malleus connector: this area of the device is specifically designed to ensure proper transfer of the load above without impeding donning/doffing of the boots.
- Tibia-Knee extension mechanism: this is the lower area of the knee as a continuation of the tibia
- Front-Tibia Extender mechanism: this area opens up just in front of the tibia to allow proper transfer of the redirected load coming from above.
- Back-Tibia Connector mechanism: this area allows proper attachment of the device to the back of the tibia.
- Front-Hip Extender mechanism: this area opens up just in front of the hip to allow proper transfer of the redirected load coming from above.
- Back-Thigh Connector mechanism: this area allows proper attachment of the device to the back of the hip.
- Belt-Thigh Junction Pivot: this junction mechanism allows proper movement of the hip/thigh area while ensuring proper load transfer.
- Thigh abduction Extender: this area makes the bridge between the upper body loads transferred below via the belt system.
- Belt-Thigh Junction Connector: this area allows proper attachment of the device to the back of the tibia.
- Belt Track mechanism: this area allows proper attachment of the device to the back of the tibia.
- Load-Lifter Wings: this part lifts the weight away from the shoulders torso so as to free the body from this load which will be redirected to the floor via the transfer mechanisms.
- Vertebrae: this part acts like a human spine allowing proper mobility of the upper torso before connecting to the belt for transmission of the load coming from above.
- Vertebrae-Ribs: This is a special vertebrae, unlike the others (o), which extends/grow two floating ribs that will embrace the torso from back to front.
- Rib-plate Connector: This part located at the extremity of the floating rib helps avoid compression of the torso by slightly pushing the tight ballistic vest away.
- Rib Adjustment Track: This is the mechanism that allows proper adjustment and fixation of this entire sub-system of the exoskeleton on the torso.
- Upper-Ear Pivot Branch: This is the highest part of the upper shoulder sub-system which is connected to the helmet. This sub-system utilizes an Assisted Torque System (ATS) to literally assist and control the motion of the neck while transferring a portion of the weight of the helmet to the sub-system below via the Lifter Wings (n).
- Lower-Ear Pivot Branch: This is part of the upper shoulder sub-system, with the same function as (s).
- Neck Rail Slider: This mechanism allows adjustment of the position of the helmet on the upper shoulder sub-system for proper load balancing and movement control/assistance of the neck.
- Neck Pivot Branch: This mechanism is also part of the upper shoulder sub-system designed to function as described in (s). It mainly concerns the movement of the neck.
- An exoskeleton in accordance with the principles of the present invention is generally shown at 10 in
Figs. 1 and 2 . Theexoskeleton 10 is designed to allow a user, carrying a load on its torso, to have theexoskeleton 10 take the load from the torso by lifting it away from the body of the user and have it redirected to the ground underneath the foot while the user is standing, walking, running, or squatting. In the present embodiment, theexoskeleton 10 is also configured to at least partially support the weight of a helmet that the user might be wearing. - Referring now to
figs. 1 to 6 , theexoskeleton 10 generally comprises three main sections, 1) atorso section 100, 2) ahip section 200, and 3)leg sections sections torso section 100, thehip section 200 and then theleg sections exoskeleton 10 may further comprise aneck section 400. - Understandably, the
torso section 100, thehip section 200 and theleg sections torso section 100, thehip section 200 and theleg sections various sections - With additional reference to
Figs. 7 and8 , thetorso section 100 may comprise ashoulder member 110 and aspine assembly 120. As shown inFig. 7 , theshoulder member 110 is located at theupper extremity 122 of thespine assembly 120. Theshoulder member 110 is generally configured to take at least a portion of the load applied on the torso of the user and transfer it to thespine assembly 120 which will further transfer the load down via thehip section 200 and to theleg sections - As best shown in
Figs. 7 and8 , in the present embodiment, theshoulder member 110 is generally configured to partially surround the base of the neck of the user. In that sense, theshoulder member 110 comprises two wing-shapedextensions recess 113 where the base of the neck of the user can be located. - The
spine assembly 120, which is similar to a human spine, generally comprises a plurality of interconnected spinal members orvertebrae 131 to 136. In the present embodiment, thespine assembly 120 comprises 6 individual spinal members. However, in other embodiments, the number of spinal members could be more or less than 6. - The
shoulder member 110 and thespinal members 131 to 136 are interconnected with resilient members (e.g. springs) 150 to 155 in order for thespine assembly 120 to compress and extend under the different load it supports and transfers. The resilient interconnection between theshoulder member 110 and thespinal members 131 to 136 also gives flexibility to thetorso section 100 of theexoskeleton 10. Since theexoskeleton 10 is configured to be worn by a user, it may be advantageous that theexoskeleton 10 be able to follow the movements of the user while maintaining its load-bearing capabilities. In the present embodiment, the resilient interconnection between theshoulder member 110 and thespinal members 131 to 136 allows thetorso section 100 to support at least part of the load applied to the torso of the user while remaining flexible enough to follow most of the movements of the user. - In the present embodiment, at least one of the
spinal members 131 to 136 further comprises at least one pair of left andright rib members Figs. 7 and8 , onlyspinal member 133 comprisesrib members Rib members spine assembly 120. In that sense, in the present embodiment,rib members plates plates fastener openings rib members respective mounting plates - Understandably, depending the intended use of the
exoskeleton 10, more spinal members could be provided with rib members (if the user has to carry large front load, e.g. a camera operator) or be devoid of rib members altogether (if the user doesn't have to carry large front load, e.g. a hiker). - By virtue of its configuration, the
torso section 100 will at least partially support a load carried by the torso of the user and transfer it down to thehip section 200 which will further transfer it to the ground via theleg sections - Referring now to
Figs. 9 and10 , in addition toFigs. 1 to 6 , thehip section 200 is a bridging section between theupper torso section 100 and thelower leg sections hip section 200 is generally configured to transfer and redirect the load from the back, where it receives the load from thespine assembly 120, to the sides where it transfers the load to theleg sections - In the present embodiment, the
hip section 200 comprises alower back member 210 and twohip members lower back member 210 all the way to the front of the user. As best shown inFig. 9 , thefree extremities right hip members complementary fasteners Fig. 9 ). In the present embodiment, thecomplementary fasteners complementary fasteners - As shown in
Fig. 9 and particularly inFig. 10 , thelower back member 210 is connected to thelowest extremity 124 of thespine assembly 120 of thetorso section 100. The connection between the lowestspinal member 136 and thelower back member 210 is similar to the connection between the otherspinal members 131 to 136. - As best shown in
Fig. 9 , when thecomplementary fasteners hip section 200 forms a belt which fully circumscribes the hip region of the user. In the present embodiment, for added comfort to the user, the inner surface of thelower back member 210 and of thehip members elastomeric foam 230. Notably, in addition to its role in transferring the load from thetorso section 100 to theleg sections hip section 200 also transfers part of the load to the hips of the user, thereby further contributing to alleviating the load carried by the torso of the user. The layer of resilient material therefore generally prevents thehip section 200 to define painful contact points with the hips of the user. - Referring now to
Figs. 9 to 14 , to complete the load transfer from the torso down to the ground, thehip section 200 is connected to the pair of left andright leg sections leg sections right leg section 300R being a mirror image of theleft leg section 300L. In that sense, only theleft leg section 300L will be described below. - The
left leg section 300L is fixedly yet adjustably connected to theleft hip member 220L of thehip section 200. Theleft leg section 300L generally comprises three main portions, 1) ahip connector assembly 310L, 2) anupper leg member 330L, and 3) alower leg member 350L. - Referring to
Figs. 9 and10 , thehip connector assembly 310L is generally responsible to assure the proper connection between thehip section 200 and theleft leg section 300L and while allowing the necessary degrees of freedom in the movements of theleg section 300L. In that sense, thehip connector assembly 310L comprises abelt connector 312L, first hipjoint member 314L pivotally connected to thebelt connector 312L, a second hipjoint member 316L pivotally connected to the first hipjoint member 314L, and a third hipjoint member 318L pivotally connected to the second hipjoint member 316L. - As can be seen in
Fig. 9 , thepivotal connection 313L between thebelt connector 312L and first hipjoint member 314L defines afirst pivot axis 323L which allows for lateral movements (i.e. left-right movements) of the leg of the user. For its part, thepivotal connection 315L between the first hipjoint member 314L and second hipjoint member 316L defines asecond pivot axis 325L which allows for longitudinal movements (i.e. front-rear movements) of the leg of the user. Finally, thepivotal connection 317L between the third hipjoint member 318L and the second hipjoint member 316L defines athird pivot axis 327L which for axial movements (i.e. rotational movements) of the leg of the user. The threepivot axes leg section 300L and thus to the leg of the user. Hence, by providing three degrees of freedom, thehip connector assembly 310L allows the upper andlower leg members - Referring now to
Figs. 11 and12 , theupper leg member 330L is mounted to the hipjoint assembly 310L (see alsoFigs. 9 and10 ) and generally extends downwardly therefrom. More particularly, theupper extremity 332L of theupper leg member 330L is fixedly yet adjustably connected to the third hipjoint member 318L. Theadjustable connection 319L between theupper extremity 332L and the third hipjoint member 318L generally provides height adjustment to take into account legs of various length. - The
upper leg member 330L generally comprises two regions, anupper region 334L and alower region 336L. As best shown inFig. 11 , theupper region 334L generally extends from the side (e.g. the thigh region) of the user toward the front. Then, extending downwardly from theupper region 334L is thelower region 336L which is terminated near the knee by twoextremities 338L as thelower region 336L splits. - For its part, the
lower leg member 350L is pivotally connected, at itsupper extremities 352L, to theupper leg member 330L, and is terminated at itslower extremity 358L by asole insert 370L. - As the
upper leg member 330L, thelower leg member 350L also comprises anupper region 354L and alower region 356L extending downwardly therefrom. Notably, as shown inFig. 11 , theupper region 354L of thelower member 350L also splits in twoextremities 352L. These twoextremities 352L are pivotally connected to the twoextremities 352L of thelower region 336L of theupper leg member 330L. Thepivotal connection 339L between theextremities 338L andextremities 352L is generally aligned with the knee of the user in order to allow the leg of the user to bend along the knee. - Notably, as shown in
Fig. 11 (see alsoFig. 3 ), the split configuration of theextremities 338L andextremities 352L defines acentral opening 340L. Thisopening 340L allows the knee of the user to extend through it when the user kneels or squats. - Reference to
Figs. 11 to 14 , theupper region 354L of thelower leg member 350L is generally located at the front of the leg of the user while thelower region 356L extends downwardly and toward the inside of the leg of the user such as to terminate inside the foot of the user. In that sense, thelower region 356L is terminated by asole insert 370L configured to fit inside the footwear under foot of the user. Thissole insert 370L is pivotally connected to theextremity 358L of thelower leg member 350L to allow pivotal movements of the foot of the user. - Referring to
Fig. 11 or12 , it will be noted that theleg section 330L transfers the load from the outer side of the leg of the user, near the thigh, all the way down to the inner side of the leg of the user, near the ankle. This load transfer from the outer side of the leg toward the inner side of the leg allows the final load-bearing point to be located inside the foot of the user in accordance with the biomechanics of the human body. In that sense, since the inner side of the foot is better configured to support load, transferring the load on the inner side of the foot can prevent injuries to the user of theexoskeleton 10. - Referring to
Figs. 11-14 , when a user is standing straight, walking or running, the leg remains in its normal circumference and geometry. Upon kneeling on one leg, two legs, or adopting a crouching position, the circumference of the leg typically increases within a range varying between none to several inches, depending on the age and ethnic background of the individual. This situation applies specifically to the thigh and the calves region of the legs. - Referring to
Figs. 18-21 , in the present embodiment, section A (dark grey: thigh extender which is connected to the knee pivot joint, which is in turn connected to the tibia extender) generally moves horizontally towards the inner side of the leg by the expansion of the muscles when the user adopts a lower position as described above while Section B (light grey: knee/thigh/tibia mechanism) generally remains fixed and does not move. - Referring to
Fig. 20 ,elements - Referring now to
Fig. 12 (see alsofig. 4 ), the back of both theupper leg member 330L andlower leg member 350L is provided withstrap attachment extensions attachment loops loops leg section 330L to the leg of the user. Typically, the straps are elastic and/or adjustable strap to provide proper attachment between theleg section 330L and the leg of the user. - Also, as for the
hip section 200, the rear surface of theleg sections - As mentioned above, the present embodiment of the
exoskeleton 10 also comprises aneck section 400 which is generally configured to transfer the load generated by a helmet (not shown) down to thetorso section 100. As shown inFig. 17 , in the present embodiment, theneck section 400 is connected to thetorso section 100 via avest 500. Thevest 500 is generally integrated with thetorso section 100 such as to allow thevest 500 to secure thetorso section 100 to the torso of the user. In the present embodiment, thevest 500 is made frompadded straps 510 andmesh 520. - Referring to
Figs. 15 and16 , to allow theneck section 400 to properly transfer the load of the helmet down to thetorso section 100, theneck section 400 comprises a pair of left and righthelmet support members first neck members first neck members second neck member 430 which is shaped to extend along the rear of the head of the user. Thissecond neck member 430 is further connected to athird neck member 440 which extends downwardly toward the shoulders of the user. In that sense, thelower extremities third neck member 440 are provided withvest attachment members - In operation, trajectory of the static and dynamic loads along the
exoskeleton 10 is as follows. - In the present embodiment, in operation, when the person is standing, walking, or running this
exoskeleton system 10 takes the load which is typically on the torso, lifts it away from the body and redirects it to the floor underneath the foot (i.e. the load is now redirected strategically to the area where the bipedal body manages better the load). - While standing, walking, or running, the trajectory of the static and dynamic loads involved is as followed:
- I. The load of the helmet is typically taken off the neck and redirected down to the shoulders via the
transfer mechanisms 412, 415, 430, 442 (seeFig. 15 ). - II. From I, the load is lifted from underneath the shoulders by the load-lifter wing transfer mechanism 112 (see
Figs. 5-7 ) - III. From II, it flows through the
vertebrae Fig, 8 ) of the artificial spine to reach the hip area 230 (seeFig. 9 ). Hence, the load is typically on the outside of the body, just over the hip. - IV. From III, it continues through the hip area via the slider/connector/junctions 319, 323, 312 (see
Fig. 10 ) all the way down to the legs - V. From IV, it continues through the
knee area 319, 354, 356 (seeFig. 11 ) - VI. From V, the load is redirected to the inside of the leg via transfer mechanisms 356, 358, 359 (see
Fig. 11 ) - VII. From VI, the load takes a trajectory describing a 0 to 90 degree (from vertical to horizontal direction ― lower interior side of the tibia towards the big toe) before finally reaching underneath the foot 370 (see
Fig. 11 ). - In the present embodiment, now referring to
Figs. 22-25 , in operation, at certain positions, the functioning of thevertebrae 131 to 136 of the vertebrae assembly (artificial spine) is preferably a self-adjustable dynamic load transfer mechanism designed specifically for the human spine. - In the present embodiment, the
vertebrae assembly 600 is composed of several individual device-parts identified as vertebrae which are characterized in 4 types: Lumbar Vertebrae (134 to 136), Rib Shock Vertebra 133 (which extends into the Rib Shock assembly connection (140 to 144)), Thoracic Vertebrae 131-132 and Upper Vertebra 110 (which extends into the Load-lifter wings 112). - Referring to
Fig. 22 , thevertebrae assembly 600 comprises telescopicinternal springs 610,inter-vertebrae springs 620, and sphericalcontact load transfer 630. - Each one of these vertebrae (110, 131 to 136) preferably moves freely in relation to others on 4 axis: rotation, flexion, lateral flexion and translation. The upper vertebra (110) is typically the device-part that has the capacity to handle the load. The functioning of this vertebrae assembly with regards to the global system sustaining a certain charge depends on the specific posture/activities/positions as well as transfer mechanisms described below:
- In the present embodiment, referring to
Fig. 23 , while standing straight all vertebrae (110, 131 to 136) (seeFig. 8 ) from the assembly are directly in contact trough thespherical contact surface - While walking and running, the load will still be transmitted through this direct contact. Also if a limited leaning motion is performed (less than 10 degrees) on any side, the vertebrae assembly will still transfer the load (or translate) through direct contact.
- Once the movement of the user reaches a more than 10 degree-leaning motion, the spine typically extends following a certain pattern: lumbar section translates more than the other sections; the other sections translate in a similar way.
- Referring to
Fig. 23 , when the spine extends, it generally creates a translation between each vertebra points ofcontact vertebrae 115. It's the two contacts created by the scaffold points ofcontact - Still referring to
Fig. 23 , as the scaffold mechanism increases, a larger angle of flexibility is obtained between thevertebrae 131 to 136 (seeFig. 8 ); so the more there is a leaning motion, the more the translation betweenvertebrae 131 to 136 (seeFig. 8 ) increases, and the more flexible they become. The lumbar vertebrae translate so much that atelescopic mechanism - A spring is inserted inside each
vertebra 131 to 136 (seeFig. 8 ); this spring pushes theother vertebrae 131 to 136 (seeFig. 8 ) apart (seeFig. 22 ). A specific spring is inserted into the lumbar section to activate the telescopic mechanism of the Lumbar vertebrae (seeFig. 22 ). The global assembly is then tightened by an elastic that pulls the whole vertebrae assembly together (seeFigs. 24-25 ). - This mechanism is preferably self-adjustable in a way that moving with the load on the shoulder is rendered effortless.
- Upon movement of the user, a slight offset (from the center of the body) of the position of the load vector is triggered; this offset generally engages the
vertebrae 131 to 136 (seeFig. 8 ) which pull the whole system (body + exoskeleton) into the direction of the movement. - The load carried by the user on its chest, shoulders and/or back is at least partially supported by the
shoulder member 110 andspine assembly 120 of thetorso section 100. The load is thus directed toward the back and along thespine assembly 120 which further directs it down to thehip section 200. Thehip section 200 splits the load in two as it redirects it to the left andright hip members right hip members right leg sections leg sections - Hence, when the user wearing the
exoskeleton 10 is standing, walking, running, kneeling, squatting, etc., thisexoskeleton 10 takes at least part of the load which is on the torso of the user, lifts it away from the body and redirects it toward the ground underneath the feet of the user. - Typically, the
exoskeleton 10 is generally made of titanium or other lightweight alloy. Still, theexoskeleton 10 could have some of its components made of composite material, such as carbon fiber or aramid and/or a combination of both, the articulations and the vertebrae remaining however in titanium. In order to reduce the weight further, the titanium could be made of a sparse material (i.e. metallic alloy comprising embedded gas bubbles). - The scope of the claims should not be limited by the preferred embodiments set forth in the examples, but should be given the broadest interpretation without departing from the scope of the appended claims.
Claims (15)
- An exoskeleton (10) configured to be worn by a user to support and transfer a load carried by the user, the exoskeleton comprising a torso section (100) connected to two symmetrical articulated leg sections (300L,300R) via a hip section (200) such as to transfer the load carried by the torso section (100) down to the ground via the hip section (200) and then the leg sections (300L,300R), each leg section (300L,300R) being adapted to be maintained on each user's leg and to follow the leg's movements when the exoskeleton (10) is in use, each leg section (300L,300R) having an upper end operatively connected to an outer side of the hip section (200) and a bottom end adapted to be in contact with the ground, characterized in that each leg section (300L,300R) is configured to transfer the load from the outer side of the hip section (200) to an inner side of the user's leg before contacting to the ground.
- The exoskeleton (10) of claim 1, characterized in that each leg assembly (300) comprises:an upper leg member (330) extending downwardly from the hip section and having an end (332) pivotally connected to the hip section (200) to allow the upper leg member (330) to move with respect to the hip section (200) when the user moves; anda lower leg member (350) extending downwardly from the upper leg member (330) and pivotally connected to the upper leg member, the pivotal connection (339) between the upper and lower leg members being located at a knee level of the user to allow the lower leg member (350) to follow the movements of the lower leg of the user with respect to the upper leg;the upper (330) and lower (350) leg members extending downwardly and toward the inner side of the user's leg such as to transfer the load from the outside of the leg toward the inside of the leg and down on the inner side of the foot of the user.
- The exoskeleton (10) of claim 2, characterized in that:the upper leg member (330) comprises an upper region (334) extending downwardly from the outer side of the hip section (200) toward a front of the leg, and then extending downwardly from the upper region (334) is a lower region (336) terminated near the knee level by two extremities (338) as the lower region splits on each side of the leg; andthe lower leg member (350) comprises an upper region (354) pivotally extending from the lower region (336) of the upper leg member (330) and a lower region (356) extending downwardly therefrom toward the inner side of the user's leg, the upper region (354) of the lower member also splits in two extremities (352) which are each pivotally connected to the two extremities (338) of the lower region (336) of the upper leg member (330) defining as such a central opening (340) to allow the knee of the user to extend through said opening when the user kneels or squats;the pivotal connection (339) between the said extremities (338, 352) being aligned with the knee of the user in order to allow the leg of the user to bend along the knee.
- The exoskeleton (10) of claim 2 or 3, characterized in that each leg assembly (300) further comprises a hip joint assembly (310) for operatively connecting the upper leg member (330) to the hip section (200), the hip joint assembly (310) being articulated for transferring the user's movement between the hip and leg sections, the hip joint assembly (310) being configured for adjusting a length of the leg assembly with a length of the user's leg.
- The exoskeleton (10) of claim 4, characterized in that the hip joint assembly (310) comprises:a belt connector (312) to connect the hip joint assembly (310) to the outer side of the hip section (200),a first hip joint member (314) pivotally connected to the belt connector (312) such as to form a first pivotal connection (313),a second hip joint member (316) pivotally connected to the first hip joint member (314) such as to form a second pivotal connection (315), anda third hip joint member (318) pivotally connected to the second hip joint member (316) such as to form a third pivotal connection (317); and in that:the first pivotal connection (313) between the belt connector (312) and the first hip joint member (314) defines a first pivot axis (323) which allows for lateral or left-right movements of the leg of the user,the second pivotal connection (315) between the first hip joint member (314) and second hip joint member (316) defines a second pivot axis (325) which allows for longitudinal or front-rear movements of the leg of the user, andthe third pivotal connection (317) between the third hip joint member (318) and the second hip joint member (316) defines a third pivot axis (327) which allows for axial or rotational movements of the leg of the user;the three pivot axis (323, 325, 327) being perpendicular to each other, thereby generally providing three degrees of freedom to the leg section providing as such movements of the leg of the user during use.
- The exoskeleton (10) of claim 2, characterized in that the lower leg member is terminated with a sole insert (370) extending outwardly from the lower leg member (350) and adapted to be received inside or outside a user's footwear.
- The exoskeleton (10) of any one of claims 1 to 6, characterized in that the torso section (100) of the exoskeleton comprises:a shoulder member (110) configured to rest on the shoulders of the user; anda spine assembly (120) extending downwardly from the shoulder member (110) along the user's spine and comprising a plurality of spinal members (131, 132, 133, 134, 135, 136), with an uppermost spinal member (310) being connected to, or integral with, the shoulder member (110), and a lowermost spinal member (136) being connected to the hip section (200);the torso section (100) supporting and transferring the load carried by the shoulders and torso of the user toward the ground via the hip section (200) and then the leg sections (300).
- The exoskeleton (10) of claim 7, characterized in that the shoulder (110) and spinal members (131, 132, 133, 134, 135, 136) are interconnected by resilient members (150, 151, 152, 153, 154, 155) to allow the spine assembly to compress or extend under load and to allow the spine assembly (120) to relatively follow the movements of the user's torso.
- The exoskeleton (10) of any one of claims 7 to 8, characterized in that the torso section (100) also comprises at least one pair of left and right rib members (140) which extend on each side of at least one intermediate spinal member (133) all the way to the front of the torso of the user at the level of the user's lowest ribs, between the thorax and abdomen, for supporting and transferring the load carried by the thorax or abdomen toward the spinal assembly and then toward the ground via the hip and leg sections (200, 300).
- The exoskeleton (10) of any one of claims 1 to 9, characterized in that the hip section (200) comprises a lower back member (210) connected to the torso section (100) and left and right hip members (220L, 220R) extending from each side of the lower back member (210) all the way to the front of the user, the left and right hip members (220L, 220R) having extremities provided with complementary fasteners (224L, 224R) such as to be attachable together to form a belt.
- The exoskeleton (10) of any one of claims 1 to 10, characterized in that the exoskeleton (10) further comprises a neck section (400) configured to assist in supporting the load carried by the head of the user, the neck section (400) being removably connected to the torso section (100) such as to transfer the load from the head and neck of the user toward the torso section (100) which will further transfer the load down to the ground via the hip (200) and leg sections (300).
- The exoskeleton (10) of any one of claims 1 to 11, characterized in that the exoskeleton (10) further comprises one or more resilient pads affixed between the exoskeleton and the user for adding comfort when the user is wearing the exoskeleton.
- The exoskeleton (10) of any one of claims 1 to 12, characterized in that comprising a vest (500) adaptable to a size of the user's torso for securing the torso section (100) to the user's torso.
- The exoskeleton (10) of any one of claims 1 to 13, characterized in that the exoskeleton is a passive exoskeleton.
- A method for supporting and transferring a load carried by a user down to the ground, comprising the step of:wearing an exoskeleton (10) comprising a torso section (100) downwardly connected to two symmetrical articulated leg sections (300L,300R) via a hip section (200); andcharacterized by transferring the load carried by the torso section of the exoskeleton from the outer side of the hip section (200) to an inner side of the leg sections (300L,300R) before contacting the leg sections (300L,300R) to the ground.
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US201462013722P | 2014-06-18 | 2014-06-18 | |
PCT/CA2015/050559 WO2015192240A1 (en) | 2014-06-18 | 2015-06-18 | Exoskeleton and method of using the same |
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EP3157471A4 EP3157471A4 (en) | 2018-03-14 |
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EP (1) | EP3157471B1 (en) |
JP (1) | JP6678662B2 (en) |
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CA (1) | CA2952645C (en) |
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RU2797688C1 (en) * | 2022-10-14 | 2023-06-07 | ФЕДЕРАЛЬНОЕ ГОСУДАРСТВЕННОЕ БЮДЖЕТНОЕ ОБРАЗОВАТЕЛЬНОЕ УЧРЕЖДЕНИЕ ВЫСШЕГО ОБРАЗОВАНИЯ "УФИМСКИЙ УНИВЕРСИТЕТ НАУКИ И ТЕХНОЛОГИЙ" (УУНиТ) | Soft multi-mode exoskeleton |
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- 2015-06-18 WO PCT/CA2015/050559 patent/WO2015192240A1/en active Application Filing
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Cited By (1)
Publication number | Priority date | Publication date | Assignee | Title |
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RU2797688C1 (en) * | 2022-10-14 | 2023-06-07 | ФЕДЕРАЛЬНОЕ ГОСУДАРСТВЕННОЕ БЮДЖЕТНОЕ ОБРАЗОВАТЕЛЬНОЕ УЧРЕЖДЕНИЕ ВЫСШЕГО ОБРАЗОВАНИЯ "УФИМСКИЙ УНИВЕРСИТЕТ НАУКИ И ТЕХНОЛОГИЙ" (УУНиТ) | Soft multi-mode exoskeleton |
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WO2015192240A1 (en) | 2015-12-23 |
US20170087716A1 (en) | 2017-03-30 |
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AU2015278212A1 (en) | 2017-02-02 |
CN107041123A (en) | 2017-08-11 |
RU2017101339A3 (en) | 2019-01-21 |
EP3157471A1 (en) | 2017-04-26 |
CA2952645C (en) | 2019-01-22 |
US20150366694A1 (en) | 2015-12-24 |
EP3157471A4 (en) | 2018-03-14 |
RU2696631C2 (en) | 2019-08-05 |
AU2015278212B2 (en) | 2020-02-20 |
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